Abstract

In this paper, we study a nonlocal boundary value problem for a second-order Hahn difference equation. Our problem contains two Hahn difference operators with different numbers of q and ω. An existence and uniqueness result is proved by using the Banach fixed point theorem, and the existence of a positive solution is established by using the Krasnoselskii fixed point theorem.

Highlights

  • The quantum calculus, known as the calculus without considering limits, deals with sets of nondifferentiable functions

  • There are many different types of quantum difference operators, for example, the Jackson q-difference operator, the forward difference operator, the backward difference operator, and so on. These operators are found in many applications of mathematical areas such as orthogonal polynomials, basic hypergeometric functions, combinatorics, the calculus of variations, the theory of relativity, hypergeometric series, complex analysis, particle physics, and quantum mechanics

  • The Hahn difference operator is generalized to two well-known difference operators, the forward difference operator and the Jackson q-difference operator

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Summary

Introduction

The quantum calculus, known as the calculus without considering limits, deals with sets of nondifferentiable functions. In , Malinowska and Martins [ ] studied the generalized transversality conditions for the Hahn quantum variational calculus. In Section , we prove the existence and uniqueness of a solution to problem In Sections - , we establish some properties of the Green function and the existence of a positive solution to problem Hahn difference of f is defined by f (qt + ω) – f (t) Dq,ωf (t) = t(q – ) + ω for t = ω and Dq,ωf (ω ) = f (ω ), provided that f is differentiable at ω. The following lemma is the fundamental theorem of Hahn calculus. By the Banach fixed point theorem, F has a fixed point, which is a unique solution of problem

Proof Considering in and λ
Note that
Set q
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